Answer:
- stress equation :
- Shear stress equation :
- cross sectional area of a beam equation : b*d
- cross sectional area of a shaft equation :
- shear stress at an angle to the axis of the member equation:
sin∅cos∅. - Normal stress at an angle to the axis of the member equation:
∅ - factor of safety equation :
- strain under axial loading equation:
Explanation:
The description of all the pieces to the equations
- stress equation : p = axial force, A = cross sectional area
- Shear stress equation : Q = calculated statistical moment, I = moment of inertia, v = calculated shear, b = width of beam
- cross sectional area of a beam equation : b*d b=width of beam, d =depth of beam
- cross sectional area of a shaft equation : d = shaft diameter
- shear stress at an angle to the axis of the member equation: sin∅cos∅. P = axial force, A = cross sectional area ∅ = given angle
- Normal stress at an angle to the axis of the member equation: ∅ p = axial force , A = cross sectional area, ∅ = given angle
- factor of safety equation :
- strain under axial loading equation: P = axial force, L = length, A = cross sectional area, E = young's modulus
Answer:If they are used to top-down programming or functional programming, which treats elements of code as precise mathematical functions, it takes .
Explanation:
Answer:
Rate of internal heat transfer = 23.2 Btu/Ibm
mass flow rate = 21.55 Ibm/s
Explanation:
using given data to obtain values from table F7.1
Enthalpy of water at temperature of 100 F = 68.04Btu/Ibm
Enthalpy of water at temperature of 50 F = 18.05 Btu/Ibm
from table F.3
specific constant of glycerin 
<u>The rate of internal heat transfer ( change in enthalpy ) </u>
h4 - h3 = Cp ( T4 - T3 ) --------------- ( 1 )
where ; T4 = 50 F
T3 = 10 F
Cp = 0.58 Btu/Ibm-R
substitute given values into equation 1
change in enthalpy ( h4 - h3 ) = 23.2 Btu/Ibm
<u>Determine mass flow rate of glycol</u>
attached below is the detailed solution
mass flow rate of glycol = 21.55 Ibm/s
